#WEUNITUS

General Info

SUBJECTSEMESTERCFUSSDLANGUAGE
18219 - FOOD MICROBIAL BIOTECHNOLOGIES

CRISTINA MAZZONI

First Semester 6CHIM/11ITA

Learning objectives

General skills.

The basic knowledge necessary for the design of industrial processes that use microorganisms, cell cultures and immobilized enzymes will be studied in detail.
Students' critical and judgment skills will be developed thanks to class exercises, in which videos will be projected and numerical exercises carried out, and practical laboratory experiences, in which they will apply the concepts studied in class, performing and interpreting experiments that will be in the future able to reproduce autonomously. Communication skills will be exercised during the theoretical lessons, which include moments of open discussion.
Students who pass the exam will be able to design the genetic improvement of industrial strains and to critically read articles in international scientific journals on the topics of the course.

Specific skills.

a) knowledge and understanding:
- Knowledge and understanding of the physiology, biochemistry and genetics of microorganisms used in food microbial biotechnologies;
- Knowledge of the different microbial metabolisms;
- Knowledge and understanding of the main genome editing techniques on microorganisms of industrial interest;

b) ability to apply knowledge and understanding:
- ability to describe and explain the physiology and biochemistry of industrial microorganisms;
- ability to apply appropriate techniques to problems of industrial production;

c) autonomy of judgment:
- knowing how to independently solve microbial growth problems;
- being able to identify the best microorganisms for the production of a metabolite of interest;

d) communication skills:
- be able to illustrate and explain the physiology and biochemistry of the microorganisms of interest with appropriate terms and with logical rigor;
- being able to describe the main molecular techniques for the modification of microorganisms;
- being able to describe the industrial productions described in class;

e) learning skills:
- acquisition of the fundamentals and cognitive tools to autonomously pursue the study of food microbial biotechnologies;
- ability to apply biochemical and molecular techniques in laboratory working environments.

Teacher's Profile

courseProgram

The course includes 40 hours of frontal teaching and 12 hours of laboratory exercises.
6 hours
Introduction to food microbial biotechnologies - Concept of industrial fermentation - Regulations on biotech foods - microorganisms and ingredients derived from them contained in food - property of an industrial microorganism
14 hours
Biology and genetic manipulation of microorganisms of interest in food biotechnology - S. cerevisiae yeast - E. coli - Streptomyces, Bacillus, lactic acid bacteria, filamentous fungi - Penicillium - Rhizopus - production of mycoproteins: Quorn - production of fermented foods with filamentous fungi
Bioreactors and Batch, Fed batch and continuous growth modes
6 hours
Production of biomass from yeast
Production of beer and other fermented beverages
4 hours
Seminar from food industry specialists
8 hours
Food additives - industrial production of lactic acid (E270), citric acid (E330) and gluconic acid (E574)
Production and application of enzymes in the food industry - Xylanase, amylase, glucose / xylose isomerase, beta glucanase, phytase etc. L-asparaginase as a healthy enzyme
Production of amino acids - glutamic acid and MSG (E620 and E621) - L-lysine
Production and uses of polysaccharides of microbial origin - production and uses of xanthan gum (E415)
Production and uses of Natamycin in food products (pimaricin, E235)
Visits to production plants (4 hours, not applicable during SARS-Cov2 pandemic)
Laboratory exercises (12 hours):
- Determination of the titer of a microbial culture (cell count, colony forming units)
- DNA extraction
- PCR amplification of 16S rRNA
-Agarose gel electrophoresis

examMode

The exam is aimed at verifying the level of knowledge and in-depth examination of the topics of the teaching program and the reasoning skills developed by the student. The evaluation is expressed in thirtieths (minimum grade 18/30, maximum mark 30/30 with honors).

The overall exam allows to verify the achievement of the objectives in terms of knowledge and skills acquired as well as communication skills.

In the oral examination the property of language, the clarity of exposition and the critical capacity in face of problems in the handling of microorganisms and in industrial productions are evaluated

books

- Biotecnologie microbiche S. Donadio e G. Marino. Casa EditriceAmbrosiana.(2008)
- Slides of lessons (available on the E-learning platform)
- Scientific articles

mode

The frequency of teaching classes is not mandatory, but it is strongly recommended.

The course is structured in theoretical lectures and exercises. In particular, 52 hours of teaching (9 CFU) are planned, of which 64 hours of lectures (5 ECTS) and 12 hours of exercises (1 CFU). The lessons are held weekly in the classroom and the exposure takes place through the use of slides on power-point.

classRoomMode

The frequency of teaching classes is not mandatory, it is strongly recommended.

bibliography

- Biotecnologie microbiche S. Donadio e G. Marino. Casa EditriceAmbrosiana.(2008)
- Slides of lessons (available on the E-learning platform)
- Scientific articles

MODULE II - -- -
FOOD AND HUMAN NUTRITION

ANNA MARIA GIUSTI

First Semester6BIO/10ita
INTEGRATED PROTECTION OF PLANTS OF FOOD INTEREST

MASSIMO REVERBERI

First Semester6AGR/12ita
18220 - AGRI-FOOD ECONOMICS

FRANCESCO ZECCA

First Semester 6AGR/01ITA
118581 - CHEMICAL AND SENSORY CHARACTERIZATION - 12- -
SPECTROSCOPIC METHODS

CESARE MANETTI

First Semester6CHIM/02ita
COUPLED ANALYTICAL TECHNIQUES AND SENSORY ANALYSISFirst Semester6AGR/15ita
MODULE II - -- -
FOOD SYSTEM RETHINKING

EMANUELE ZANNINI

First Semester6AGR/15eng

Learning objectives

Understanding and engaging with the complexity of sustainable food production systems require training in different disciplines (primary production, ingredient and food processing, logistics, consumer science and food policy) and a strategic approach that can address this complexity at the system level. This food system study enables students to apply the principles of a systemic approach to food production systems with a focus on environmental, economic, and social sustainability. The course analyses production systems at both ends of the spectrum: highly productive systems with relatively high inputs and emissions to the environment and low productive systems with low input use and depletion of soil fertility.

General objectives:
After completing this course, students will be able to:

• Use a systemic approach in the context of food production systems;
• Understand evaluation methods used to assess the environmental impact of food production systems in different agro-ecological and socio-economic contexts and at different levels (e.g. farm, regional and global);
• Understand present and future strong and weak points of different food production systems regarding economic, social and environmental sustainability.

Teacher's Profile

courseProgram

The exam consists of group work, conducted during the course, and a final oral exam

examMode

The exam consists of group work, conducted during the course, and a final oral exam

books

Food Biotechnology (Woodhead Publishing India in Food Science, Technology and Nutrition) Hardcover - by S.C. Bhatia (Author)

classRoomMode

Attendance in person is recommended. In the case of working students, the blended modality is foreseen (in presence and with remote connection)

bibliography

Food Biotechnology (Woodhead Publishing India in Food Science, Technology and Nutrition) Hardcover - by S.C. Bhatia (Author)

118579 - ENZYMATIC TECHNOLOGIES FOR THE FOOD INDUSTRY

MARCELLO FIDALEOALESSIO CIMINI

Second Semester 6AGR/15ita

Learning objectives

Learning objectives: the course aims are to give students the theoretical/practical basis for the use of enzymes in industrial food processing. The ability of enzymes to influence the organoleptic, sensory, as well as shelf life and quality characteristics of foods will be emphasized.

Expected Learning Outcomes:
1) Knowledge and ability to understand: develop knowledge of the principles of enzyme-based operations and the application of enzymes in the food industry.
2) Applied knowledge and understanding: to know how to use quantitative computational methods for solving problems related to the use of enzymes in food applications, with particular reference to material balances; to know how to evaluate the impact of enzyme technologies on food quality, safety and sustainability; to know how to develop innovative strategies to improve production processes and food quality using enzyme technologies.
3) Autonomy of judgment: to be able to independently collect, select and evaluate information needed for the analysis of enzyme-based food processes.
4) Communication skills: to be able to communicate information, ideas, problems and solutions related to enzyme technologies in the food industry to specialist and non-specialist interlocutors;
5) Learning skills: develop those learning skills that will enable continued independent or partially guided study of enzyme technologies applied to the food industry.

Teacher's Profile

courseProgram

Part I
Enzymes: properties and classification. Molecular aspects of enzyme catalysis. Enzyme kinetics: phenomenological aspects and kinetic expressions. Michaelis-Menten equation. Effect of pH and temperature. Reversible and irreversible thermal denaturation. Competitive and noncompetitive inhibition. Estimation of kinetic parameters. Immobilized enzymes. Techniques of immobilization. Effect of immobilization on enzyme behavior: conformational changes, partition effects and diffusional limitations. Intrinsic and apparent kinetic parameters. Analysis of the kinetic behavior of solid porous particles and microcapsules containing enzymes. Bioreactors with free or immobilized enzymes.

Part II
Large-scale use of enzymes in solution in various processes: food industry, hydrolysis of starch in the production of glucose, fructose or maltose syrups, sucrose industry, cellulose degradation, dairy industry, beer, wine, juice, distillate industries.

examMode

The exam consists of a multiple-choice test on the covered topics.

books

Bailey J.E., Ollis D.F., Biochemical Engineering Fundamentals, Mc-Graw Hill, New York, 1986
Pagani S., Duranti N., Enzimologia: dai fondamenti alle applicazioni, Piccin, Padova, 1998.

mode

The course consists of 24 frontal lectures of 2 hours each.

classRoomMode

Attendance of the lessons is not mandatory. However, it is recommended to follow the lessons in the classroom or remotely, when available.

bibliography

Bailey J.E., Ollis D.F., Biochemical Engineering Fundamentals, Mc-Graw Hill, New York, 1986
Pagani S., Duranti N., Enzimologia: dai fondamenti alle applicazioni, Piccin, Padova, 1998.

Teacher's Profile

courseProgram

Part I
Enzymes: properties and classification. Molecular aspects of enzymatic catalysis. Enzyme kinetics: phenomenological aspects and kinetic expressions. Michaelis-Menten equation. pH and temperature effects. Reversible and irreversible thermal denaturation. Competitive and non-competitive inhibition. Estimation of kinetic parameters. Immobilized enzymes. Immobilization techniques. Effect of immobilization on enzyme behavior: conformational changes, partition effects, and diffusion limitations. Intrinsic and apparent kinetic parameters. Analysis of the kinetic behavior of porous solid particles and microcapsules containing enzymes. Bioreactors with free or immobilized enzymes.

PART 2
Role of enzymes in malting, baking, and beer production
Use of enzymes in the food industry
Technological applications in the baking industry
Technological applications in the beer industry
Technological applications in the wine industry
Laboratory Practical applications in bakery and brewing

examMode

The exam involves completing a multiple-choice questionnaire.

books

Bailey J.E., Ollis D.F., Biochemical Engineering Fundamentals, Mc-Graw Hill, New York, 1986
Pagani S., Duranti N., Enzimologia: dai fondamenti alle applicazioni, Piccin, Padova, 1998.


Van Oort, Maarten, and Robert J. Whitehurst, eds. Enzymes in food technology. John Wiley & Sons, 2009.

mode

In-person classes (mainly held at the Viterbo campus) will also be accessible remotely at the Rome Sapienza campus, through the projection of the lesson in a designated classroom.
one or more days of practical exercises are planned at the food technology laboratory of the University of Tuscia - CGA.

classRoomMode

Recommended attendance (blended):
Attendance at lectures is not mandatory but is strongly encouraged to ensure a deeper understanding of the topics and better preparation for exams. Additionally, this mode combines in-person lessons with online activities.

bibliography

Bailey J.E., Ollis D.F., Biochemical Engineering Fundamentals, Mc-Graw Hill, New York, 1986
Pagani S., Duranti N., Enzimologia: dai fondamenti alle applicazioni, Piccin, Padova, 1998.


Van Oort, Maarten, and Robert J. Whitehurst, eds. Enzymes in food technology. John Wiley & Sons, 2009.

118602 - PRODUCTION IMPROVEMENT AND CONTROL - 12- -
MODULE II

RAFFAELE DELLO IOIO

First Semester6BIO/11ita
MODULE II

SIMONE FERRARI

First Semester6BIO/04ita
118580 - FOOD COMMODITY LABORATORY

DONATELLA RESTUCCIA

Second Semester 6SECS-P/13ita

Learning objectives

The goal of the Teaching Unit is to provide practical knowledge for
classification and characterization of food products in terms of their
commodity class correspondence by determining some analytical indexes
considered by the present regulations. They will be evaluated by laboratory tests exploited to control food production processes.
Specific Skills to be acquired by the students will be:
• understanding food EU regulations and Italian laws;
• understanding the analytical parameter meaning for proper food classification;
• understanding the most common chemical calculations used in food analysis;
• ability in evaluating the obtained results in terms of food quality and safety;
• ability to properly classify a food product under the commodity science point of view also considering the law requirements.

Soft Skills
• ability in evaluating the global human suitability of a food product;
• ability to work in team with other people, to share and present the obtained results;
• research autonomy in consulting institutional european web sites (EC, EFSA, RASFF, etc.) to find legal and technical reports related to food safety.

Teacher's Profile

courseProgram

Fundamental commodity aspects: classification and characterization of food products. Food quality and safety: compulsory and volunteer laws. Adulterations in food sector: definitions and analytical determinations. Chemical laboratory: instruments and calculations. Olive oil, wine, milk and dairy products, meat and meat-based foods, Fish, drinking water.
Food commodity laboratory: common analytical instruments and chemical calculations
QUANTITATIVE ANALYTICAL DETERMINATIONS:
Milk
• Determination of total acidity and lactic acid
Mineral water:
• Determination of total hardness
• Determination of chloride

examMode

Exam sessions as reported by the academic calendar. The examination is formed by a written problem of 30 min. (done/undone) and an oral test (3 questions max 10 points each). Only if the written test is passed, the oral part can be faced. The final vote is reached after the oral part taking also into consideration the average error collected during the lab experiences (error up to 3% = 5 points; error from 3 and 6%= 3 points; error from 6 to 10%= 1 point; error above 10%= 0 points; max 5 points or lode if the final vote is 30/30).
Problems of the written test are related to the common chemical calculations to be used during the laboratory experiences (i.e. solution concentration and dilution; redox reactions and salt solubility). Exercise solving will underline the student’s ability in managing and facing common laboratory problems. Student’s skill in critical evaluation of the practical meaning of the obtained results will be also considered.
On the contrary, the oral part questions are focused on the knowledge of the food regulations and laws, of the food analytical techniques and mostly on the meaning of the analytical indexes posed by the law to be related to the foods chemical, technological, hygienic and commodity features. Clarity, organization and correct use of scientific language will be evaluated as well as knowledge of the main issues of the course.
Criteria for learning evaluation consists in a final score expressed in thirtieths, according to the following grid:
30-30 with honors (excellent): excellent knowledge of topics, excellent use of language, excellent analysis skills. The student is able to apply his knowledge to solve the posed problems;
27-29 (very good): good knowledge of the topics, good use of language. The student is able to apply his knowledge to solve the posed problems;
24-26 (good): basic knowledge of the main topics, correct use of language. The student has limited skill to independently apply the knowledge to solve the problems;
20-23 (satisfactory): Knowledge but not full mastery of the main topics of the course; satisfactory use of language. The student has little skill to independently apply the knowledge acquired;
18-19 (sufficient): Very basic knowledge of the main topics of the course and poor technical language. The student has extremely limited skill to independently implement the knowledge acquired;
insufficient: The student does not have an acceptable knowledge of the contents of the topics covered in the course.
The final vote will be in 30th and expressed as the mean value of the scores obtained in the 3 questions answered + points arising from lab results collected during the course attendance.
In case of need, the exam will be taken by MS TEAMS platform. It will be an oral test (3 questions max 10 points each) + one exercise to be solved.
The examination procedures will also be adapted to the particular needs of students with disabilities certified pursuant to laws 104/92 and 118/71 or with specific learning disorder (SLD) certified pursuant to law 170/2010, by reference to the indications provided by the Rector's Delegate for activities concerning the integration of students with disabilities or with SLD.

books

• Lessons provided by the teacher
• Cappelli-Vannucchi Chimica degli Alimenti, Zanichelli 2005
• Cabras-Tuberoso, Analisi degli Alimenti, Piccin 2013

classRoomMode

Lessons will be provided by PPT presentations and by lab experiences. The laboratory exercises are conducted by the students in order to get them used to autonomy and responsibility when working. Analysis can be repeated until the end of samples and reactants. During data evaluation and presentation of the final result students are stimulated to compare opinions and taking turns to present what shared and decided.
Problem solving drills are given during practical exercises to link the obtained results to the chemical, hygienic, technological and commodity features of the samples under investigation.
Sample compliance of use is evaluated by the students in comparison to law and technical reports previously considered.
Obtained results are analysed critically all together in the next lessons.

119863 - INDUSTRIES ALIMENTARY PRODUCTS

EMANUELE ZANNINI

Second Semester 6AGR/15ita

Learning objectives

At the end of the course, students should be able to:
- demonstrate the importance of choosing raw materials and suitable equipment to ensure the production of finished products of excellent quality;
- design flow diagrams for food production plants integrating critical operations into complete process lines
- identify the critical conditions for the inactivation of pathogens or spoilage microorganisms, as well as for producing the right texture and flavour of the finished product
- Develop a critical sense to select optimal and sustainable process conditions from an environmental, social and economic point of view.
- Develop the ability to communicate aspects of food processing
- Recall previously acquired knowledge and synthesize a variety of unit operations in a logical sequence into a complete food processing line
- Creative problem-solving on identifying the right critical process conditions
- Design new foods to meet the demands of the food market

Teacher's Profile

courseProgram

Most processed food products on supermarket shelves are derived from plant and animal-based agricultural products, such as cereals, fruits, vegetables, meat, milk, etc. The transformation of these agricultural products into finished food products by the food and beverage industries involves various steps, including cleaning, separation, disintegration, pumping, mixing, heating, cooling, freezing, evaporation, drying, acidification, fermentation, etc. To enhance the sensory and safety profiles of food products at a commercial level, the food industry sector has developed various food processing and unit operations in a rational sequence. This course will enable students to understand such unit operations in the order they appear in an actual food processing plant. In addition, they will develop an understanding of how the choice of different processing operations and specific process conditions relate to the intrinsic properties of raw materials, as well as physicochemical and biochemical changes in foods during processing. The course will consist of lectures on the process and operational diagrams of various food products such as pasta and bakery products, milk and derivatives, coffee, fruit juices, and meat products. The food technology processes used to produce meat, milk and egg substitutes from alternative proteins will also be discussed.

examMode

The knowledge and skills taught in this course will be evaluated by a written assignment (case study) and consequent oral examination (if the student passes the written assignment ). The final grade of the integrated course in the Food products industry will be calculated as the mean value of scores reached in the two assignments.

books

Stephanie Clark (Editor), Stephanie Jung (Co-Editor), Buddhi Lamsal (Co-Editor)
FOOD PROCESSING: PRINCIPLES AND APPLICATIONS, 2ND EDITION

Elke K. Arendt and Emanuele Zannini
CEREAL GRAINS FOR THE FOOD AND BEVERAGE INDUSTRIES

classRoomMode

Attendance in person is recommended. In the case of working students, the blended modality is foreseen (in presence and with remote connection)

bibliography

tephanie Clark (Editor), Stephanie Jung (Co-Editor), Buddhi Lamsal (Co-Editor)
FOOD PROCESSING: PRINCIPLES AND APPLICATIONS, 2ND EDITION

Elke K. Arendt and Emanuele Zannini
CEREAL GRAINS FOR THE FOOD AND BEVERAGE INDUSTRIES

SUBJECTSEMESTERCFUSSDLANGUAGE
MODULE II - -- -
ECONOMICS AND BUSINESS MANAGEMENT

CORRADO GATTI

Second Semester6SECS-P/08ita
BIODIVERSITY AND ENHANCEMENT OF PLANTS

MARCO POSSENTI

Second Semester6BIO/01ita
ENVIRONMENTAL BOTANY AND SUSTAINABILITY OF AGRI-FOOD PRODUCTION

EVA DEL VICO

Second Semester6BIO/03ita
FOOD AND BIOCULTURAL DYNAMICSSecond Semester3M-FIL/02ita
FOOD PARASITES

STEFANO D'AMELIO

Second Semester6VET/06ita
ENVIRONMENTAL CAUSES OF FOOD CONTAMINATIONSecond Semester6BIO/06ita
119314 - MICROBIOLOGICAL TECHNIQUES FOR FOOD QUALITY AND SAFETY - 12- -
STARTER SELECTION AND PREDICTIVE MICROBIOLOGY MODULE

CARLO GIUSEPPE RIZZELLO

Second Semester6AGR/16ita
MICROBIOLOGICAL CONTROL MODULE FOR FOOD SAFETY

MICHELA VERNI

Second Semester6AGR/16ita
18240 - ENGLISH LANGUAGE

CESARE MANETTI

Second Semester 2L-LIN/12ITA
16954 - TRAINING STAGE

Second Semester 12ita
18006 - FINAL EXAMINATION

Second Semester 10ita
18238 - FREE EXAMS

Second Semester 12ita
18237 - LAW OF THE AGRI-FOOD SYSTEM

ROBERTO SAIJA

Second Semester 6IUS/03ITA
MODULE II - -- -
FOOD AND BIOCULTURAL DYNAMICSSecond Semester3M-FIL/02ita
PROCESSES AND PLANTS

MARCO PETRANGELI PAPINI

Second Semester6ING-IND/25ita

Learning objectives

Understanding and engaging with the complexity of sustainable food production systems require training in different disciplines (primary production, ingredient and food processing, logistics, consumer science and food policy) and a strategic approach that can address this complexity at the system level. This food system study enables students to apply the principles of a systemic approach to food production systems with a focus on environmental, economic, and social sustainability. The course analyses production systems at both ends of the spectrum: highly productive systems with relatively high inputs and emissions to the environment and low productive systems with low input use and depletion of soil fertility.

General objectives:
After completing this course, students will be able to:

• Use a systemic approach in the context of food production systems;
• Understand evaluation methods used to assess the environmental impact of food production systems in different agro-ecological and socio-economic contexts and at different levels (e.g. farm, regional and global);
• Understand present and future strong and weak points of different food production systems regarding economic, social and environmental sustainability.

Teacher's Profile

courseProgram

The exam consists of group work, conducted during the course, and a final oral exam

examMode

The exam consists of group work, conducted during the course, and a final oral exam

books

Food Biotechnology (Woodhead Publishing India in Food Science, Technology and Nutrition) Hardcover - by S.C. Bhatia (Author)

classRoomMode

Attendance in person is recommended. In the case of working students, the blended modality is foreseen (in presence and with remote connection)

bibliography

Food Biotechnology (Woodhead Publishing India in Food Science, Technology and Nutrition) Hardcover - by S.C. Bhatia (Author)

Learning objectives

The purpose of this course is to provide the student with a detailed knowledge on the microbial physiology and the microbial interactions during food contaminations, and on the importance of the correct selection of microorganisms for precise control of the fermentation processes.

EXPECTED LEARNING RESULTS

knowledge and understanding: Knowledge of the microbiological characteristics of food products and analytical methods, including innovative ones, suitable for the determination of altering spoilage and pathogenic microorganisms in food.

Applied knowledge and understanding: Ability to apply basic and advanced knowledge to perform laboratory analyzes for the assessment of quality and food safety parameters on products of plant and animal origin.

Making judgements: identifying the necessary assessments for the qualitative characterization of agro-food products and for the evaluation of safety requirements.

Communication skills: oral and written presentations of the activities carried out.

Learning Skills: provide the cognitive tools and logical elements that can guarantee the student a continuous updating of knowledge in the specific sector
professional and related scientific and technological research.

Teacher's Profile

courseProgram

Lessons:
History of food microbiology.
Microorganisms in food.
Ecophysiology of microorganisms in food.
Microbial growth and survival strategies
Reduction Methods.
Pathogenic Microorganisms.
Microbiological analysis of water.
Waters.
Food of animal origin and fish products.
Foods of plant origin.
Determination of microorganisms in food: culture dependent and independent techniques.

examMode

The final exam consist of a written report on the activities carried out in the laboratory and written test with questions covering all the topics of the program.

books

-Materials provided by the teacher.
-Farris, Gobbetti, Neviani, Vincenzini. Microbiologia dei prodotti alimentari, Casa Editrice Ambrosiana (2012).
-A. GALLI VOLONTERIO, Microbiologia degli Alimenti. Casa Editrice Ambrosiana, Milano, 2005.

mode

Lessons (40 h) and laboratory training (8 h) are supported by an online learning platform that provides access to videos, documents and quizzes.

classRoomMode

attendance is not mandatory

bibliography

-Materials provided by the teacher.
-Farris, Gobbetti, Neviani, Vincenzini. Microbiologia dei prodotti alimentari, Casa Editrice Ambrosiana (2012).
-A. GALLI VOLONTERIO, Microbiologia degli Alimenti. Casa Editrice Ambrosiana, Milano, 2005.

Learning objectives

Recognition of examinations completed at different universities

Teacher's Profile

courseProgram

Recognition of examinations completed at different universities

examMode

Recognition of examinations completed at different universities

books

none for the specific purpose of this course

mode

Recognition of examinations completed at different universities

classRoomMode

Recognition of examinations completed at different universities

bibliography

none for the specific purpose of this course

CHOICE GROUPSYEAR/SEMESTERCFUSSDLANGUAGE
MODULE II -6 - -
18221 - FOOD AND HUMAN NUTRITION

ANNA MARIA GIUSTI

First Year / First Semester 6BIO/10ita
118600 - INTEGRATED PROTECTION OF PLANTS OF FOOD INTEREST

MASSIMO REVERBERI

First Year / First Semester 6AGR/12ita
MODULE II -6 - -
120022 - FOOD SYSTEM RETHINKING

EMANUELE ZANNINI

First Year / First Semester 6AGR/15eng
MODULE II -6 - -
18232 - ECONOMICS AND BUSINESS MANAGEMENT

CORRADO GATTI

Second Year / First Semester 6SECS-P/08ita
18236 - BIODIVERSITY AND ENHANCEMENT OF PLANTS

MARCO POSSENTI

Second Year / First Semester 6BIO/01ita
120020 - ENVIRONMENTAL BOTANY AND SUSTAINABILITY OF AGRI-FOOD PRODUCTION

EVA DEL VICO

Second Year / First Semester 6BIO/03ita
120018 - FOOD AND BIOCULTURAL DYNAMICS - 6--
120018_1 - FOOD ETHICS AND CULTURAL PROCESSES

FABRIZIO RUFO

Second Year / First Semester3M-FIL/02ita
120018_2 - HISTORY AND GEOGRAPHY OF HUMAN NUTRITION

MARY ANNE TAFURI

Second Year / First Semester3BIO/08ita
119316 - FOOD PARASITES

STEFANO D'AMELIO

Second Year / First Semester 6VET/06ita
18234 - ENVIRONMENTAL CAUSES OF FOOD CONTAMINATION - 6--
18234-1 - MODULE I

LUCIANA DINI

Second Year / First Semester3BIO/06ita
18234-2 - MODULE IISecond Year / First Semester3BIO/06ita
18235 - PROCESSES AND PLANTS

MARCO PETRANGELI PAPINI

Second Year / Second Semester 6ING-IND/25ita
MODULE II -6 - -
18261 - GENETIC AND MOLECULAR TECHNIQUES FOR IMPROVING THE QUALITY OF ANIMAL PRODUCTIONS

MARCO MILANESI

First Year / First Semester 6AGR/17ita
18260 - FOOD BIOTECHNOLOGY AND MICROBIOLOGY

FRANCESCA LUZIATELLI

First Year / First Semester 6CHIM/11ita
EXTRA CURRICULAR GROUP - - -
118599 - PROFESSIONALIZING ACTIVITIES

MAURIZIO RUZZI

First Year / First Semester 6CHIM/11ita